Using the new clock's precision, you could in theory discern time differences at the level of a centimetre, allowing us to
test general relativity well beyond what has been done so far.
«In principle, these stars could
test general relativity, because they get into a very strong gravitational field at the central black hole,» Ghez says.
«If you can get to the bottom of the astrophysics, then you can really
test the general relativity,» says Ingram.
It also hints at a powerful new tool with which to
test general relativity.
Black holes give scientists an opportunity to
test general relativity in very extreme gravitational fields.
«To be able to
test general relativity is of crucial importance to physicists and astronomers,» Chen said.
If they do see some waves, they will be able to
test general relativity in several ways.
It could help
test general relativity and hunt for gravitational waves
Astronomers measuring this radiation will try to
test general relativity, the leading theory of gravity, to unprecedented precision.
As with previous detections of gravitational waves, the scientists used their measurements to
test general relativity.
If scientists perform Gould's test, it will not be the first time the Earth has been used to
test general relativity.
But despite these successes, Einstein's theory is not without rivals, so scientists are eager to
test general relativity as thoroughly as possible.
Everitt has devoted a half - century of his life to
testing general relativity and was the principal investigator of Gravity Probe B, a NASA - funded satellite mission that studied, and eventually verified, another aspect of Einstein's theory.
After a century of
testing general relativity, physicists still strive to achieve what the genius who formulated the theory could not.
Now observers have
tested general relativity by tracking two of those stars over complete orbits: S0 - 2, which takes 16 years to revolve, and S0 - 38, which takes 19 years.
The observation «confirmed several key astrophysical models, revealed a birthplace of many heavy elements and
tested general relativity as never before,» said Cho.
«Basically we are
testing general relativity in a new regime,» says Laura Cadonati, a physicist at Georgia Institute of Technology and LIGO's deputy spokesperson.
His current interests are the study of quantum simulators with ultracold atoms and the development of atom interferometers for
testing general relativity in space or detecting gravity fields and gravitational waves underground.
Not exact matches
«a coherent group of
tested general propositions, commonly regarded as correct, that can be used as principles of explanation and prediction for a class of phenomena: Einstein's theory of
relativity.
The observation
tests Einstein's theory of gravity, the
general theory of
relativity, with unprecedented rigor and provides proof positive that black holes exist.
With the black hole merger,
general relativity has passed the first such
test, says Rainer Weiss, a physicist at the Massachusetts Institute of Technology (MIT) in Cambridge, who came up with the original idea for LIGO.
A new
test of
general relativity: gravitational radiation and the binary pulsar PSR 1913 +16.
Virgo also allowed scientists to better
test Einstein's
general theory of
relativity.
A key tenet of Albert Einstein's
general theory of
relativity has passed yet another
test with flying colors — and for the first time in space.
The European Space Agency's LISA Pathfinder mission will primarily
test gravitational - wave detectors, but from next year it could also confirm whether gravity is all
general relativity says it is.
That «equivalence principle» now serves as the cornerstone of Albert Einstein's theory of gravity,
general relativity, and physicists are keen to
test it in as many ways as they can.
By the end of the 20th century, advances in technology allowed most of
general relativity's predictions to be
tested.
To
test theories such as
general relativity, the strength of gravity is measured precisely using ensembles of supercold atoms falling in a vacuum chamber.
Event horizons seem to be the best theoretical
test bed for combining
general relativity and quantum mechanics into a unified theory of quantum gravity.
«Mysterious radio signals from space are much better
test of Einstein's
General Relativity.»
At stake is the nearly 100 - year quest to unify the well -
tested theories of
general relativity and quantum mechanics into a supertheory of quantum gravity.
Scientists planned to use it to explore galaxy formation,
test Einstein's
general theory of
relativity, and probe the nature of dark matter and dark energy.
The Earth may provide a new way to
test Einstein's
general theory of
relativity, says an astronomer in the US.
«The big bang framework and Einstein's
general relativity,» he adds, «have passed a major new
test.»
Studies of atomic quantum states in free - fall conditions may provide ways to
test predictions of
general relativity.
Not only that, we could also
test Einstein's
general theory of
relativity in the most extreme environment yet.
Studies of a quantum object — a Bose - Einstein condensate — in free - fall conditions may provide high - precision
tests of
general relativity.
One of the first rigorous
tests of
general relativity was an observation of the precession of Mercury's orbit around the sun.
Me, I will be
testing whether
general relativity is right.»
LIGO and future gravitational wave experiments will also allow physicists to put
general relativity to the
test.
This meant it just missed the 100th anniversary of Albert Einstein's publication of the theory of
general relativity — whose predictions scientists hope to
test with instruments like those on board.
To put
general relativity to its greatest
test, we need to see whether it holds up where gravity is extremely strong.
General relativity has never been
tested in places where the effects of gravity become truly extreme — for example, at the edge of a black hole.
A newly discovered magnetized neutron star could be used to
test Einstein's
general theory of
relativity
But
general relativity has passed every
test thrown at it so far, so it seems likely to be correct.
General relativity has been
tested with great precision within the solar system, and in binary pulsar systems where gravitational fields are very strong, but never on large scales where gravity's pull is weak.
The program, called Einstein@Home, will run on personal computers during their idle time and is part of a worldwide project that will help physicists analyze gigantic volumes of data in their
test of the central predictions of Albert Einstein's
General Theory of
Relativity.
The $ 700 - million spacecraft is designed to
test two predictions of Einsteins
general theory of
relativity, which he proposed in 1916.
«It's the first time that
general relativity is really
tested around a supermassive black hole,» says Aurélien Hees at the University of California, Los Angeles.
In fact, says astrophysicist Rachel Mandelbaum of Princeton University, «projects like the CFHT Lensing Survey can be used to
test theories of dark matter and
general relativity.»